User equipment receives multiple physical downlink shared channels using quasi co-location assumptions applied to different subsets.
Asymmetric sectorization decouples uplink and downlink configurations to resolve the trade-off between base station capacity and coverage reliability.
A binary tree structure jointly encodes Rank Index and Pre-coding Matrix Index to reduce signaling overhead in LTE-A systems.
Linear arrays on a tubular reflector generate peanut-shaped beams, reducing component count and manufacturing cost for small cell base stations.
A unified beam management framework configures measurement and recovery procedures for primary and secondary cells in carrier aggregation.
UE-RS sequence initialization decouples pseudo-random generation from user equipment identifiers to ensure orthogonal reference signals.
Base station configures UE uplink control channel transmission modes via higher layer signaling to resolve reliability versus device complexity trade-offs.
Transmitting a MAC Control Element with Synchronization Signal Blocks enables the base station to select an optimal downlink beam, reducing beam recovery time.
Port virtualization using multiple CRS ports with distinct precoding vectors reduces deep spatial fading and improves cell association reliability.
Configuring distinct channel and interference resources enables precise L1-SINR calculation at the terminal.
Allocating predetermined information to additional data subcarriers in legacy WLAN frame fields.
Beamforming precoder values derived from null space basis vectors concentrate broadcast signal energy on specific antenna elements.
Precodes uplink reference signals via downlink channel data, resolving resource reservation conflicts and interference in dense MIMO networks.
Configuring reference signal processes per slot enables user equipment to prepare receive beams in advance.
A beamforming method applies wide nulling to side lobes to serve multiple users simultaneously.
A QR decomposition-based soft demapper computes bit log-likelihood ratios in a single iteration without matrix inversion.
Segmented PMI reporting with DFT compression reduces overhead while maintaining high spatial resolution.
A switching arrangement couples flexible groups of antenna ports to data stream interfaces for adaptive gain control.
A processor predicts Uu link beam failure and requests sidelink resources to route recovery signals via a relay UE.
Base station configures user equipment with channel state information reference signals to measure beam-formed gains for accurate transmission.
A user equipment divides antenna ports into transmitting and receiving groups to transmit sounding reference signals for channel state information acquisition.
Transmitter uses common and antenna-specific training sequences for beamformed data bursts in GSM systems.
Dynamic slot format indicators coordinate beam configurations across aggregated frequency bands.
Customized indexing schemes interpret control signal bits based on the number of transmit antennas to expand data stream parameter information scope.
User equipment directional sensing configuration enables spatial multiplexing of communication and radar signals.
A power feed circuit configures five antenna elements using a 90-degree hybrid circuit to achieve a 30° to 33° beam width for six-sector base stations.
Network device determines aperiodic CSI-RS threshold from terminal capability to resolve beam switching timing conflicts.
Dynamic quantization parameters adapt to channel variations, reducing errors from fixed tables and improving throughput accuracy.
A terminal device determines wideband channel state information based on network-allocated frequency resources.
Segmenting serving cells into dedicated groups with shared detection resources reduces overhead while maintaining precision for timely beam failure recovery.
A first electronic device schedules periodic sidelink data transmission using multiple beam patterns to optimize resource allocation.
Clear-to-send signals with beam data resolve unlicensed band collisions by enabling dynamic channel allocation.
An interference rejection filter processes received signals using spatial correlation data to separate desired components from noise.
A terminal device determines orthogonal basis vector groups and calculates second-level code words for multi-layer data transmission.
Segmenting antenna ports into horizontal and vertical groups resolves the trade-off between beamforming adaptability and measurement complexity.
A user terminal coordinates concurrent uplink transmissions via a transmit buffer and timer mechanism.
A digital processing device iteratively estimates signal parameters using pilot symbols and channel coefficients.
Beamforming modems manage disjoint frequency channels and data sessions to reduce interruption during fast vehicle movement.
A dynamically reconfigurable channelizer uses a crossbar switching circuit to route signals among processing resources.
Extracting the band 7 filter from the diversity switch module reduces linearity requirements from +79 dBm to +57 dBm while maintaining signal routing.
A location service supplies terminal position data to a beamforming module, eliminating sector sweeps and reducing association time in dense networks.
A half-duplex user equipment detects random access channel occasion overlaps with downlink reference signals to prioritize uplink transmission.
A wireless controller multiplexes signals between networking modules and antenna arrays using lookup tables.
A processing module removes amplitude information from non-constant modulus channel matrices to generate constant modulus precoding matrices.
Segmenting common and dedicated channels resolves interference with non-diversity user equipment while enabling over 3 dB performance gains.